Results 101 to 110 of about 6,189 (221)

Are there superposed Mohos in the south-western Alps? New seismic data from fan-profiling reflections [PDF]

, 2007
International audienceThe Moho preserves imprints of the regional geodynamic evolution of the lithosphere. As such, its detailed topography in divergence or convergence zones has a strong bearing on any geodynamic model. This is still more critical where
Bethoux, N., Frechet, Julien, Guiguet, Robert, Jenatton, Liliane, Paul, Anne, Thouvenot, François   +5 more
core   +4 more sources

Moho Depth Disposition of the Contiguous United States: A Multi‐Modal Data Driven Approach

Journal of Geophysical Research: Machine Learning and Computation
Precise determination of Moho depth is essential for understanding lithospheric deformation, lower crustal rheology, and crust‐mantle interactions. This study employs a Random Forest Regressor (RFR) model to predict Moho depth across the contiguous ...
Ramees R. Mir, Sameem Makhdoomi, Hui Huang, Zhitu Ma, S. Mostafa Mousavi   +4 more
doaj   +1 more source

Crustal Structure in Alaska From Receiver Function Analysis

Geophysical Research Letters, 2019
New maps of crustal thickness and Vp/Vs in Alaska and western Canada were obtained using P receiver functions recorded at 198 stations from the USArray Transportable Array and the Alaska Regional Network.
Ying Zhang, Aibing Li, Hao Hu
doaj   +1 more source

From topography to topography: Surface elevation, Moho geometry and African lithosphere dynamics

, 2014
Multi-seismic experiments acquired across the central and southern part of the Iberian Peninsula provide a new insight into the structure and nature of the lithosphere beneath these areas. Normal incidence and wide-angle seismic reflection data acquired in the area resolve the internal architecture and constrain the distribution of the physical ...
Globig, Jan, Fernández Ortiga, Manel, Torné, Montserrat, Faccenna, Claudio   +3 more
openaire   +1 more source

Crustal structure of the Colima rift, western Mexico: gravity models revisited [PDF]

Geofísica Internacional, 1999
Two 250 km and 280 km long gravity transects, across the southern (SCR) and central (CCR) sectors of the Colima rift are reinterpreted. Spectral analysis is used to estimate statistical depths to major interfaces.
C. A. Mortera-Gutiérrez, W.L. Bandy, J.H. Flores-Ruiz, J. Urrutia-Fucugauchi   +3 more
doaj  

Erosion as a driving mechanism of intracontinental mountain growth [PDF]

, 1996
In nature, mountains can grow and remain as localized tectonic features over long periods of time (> 10 m.y.). By contrast, according to current knowledge of lithospheric rheology and neglecting surface processes, any intracontinental range with a width ...
Avouac, J. P., Burov, E. B.
core  

A new lithospheric model in the eastern part of the Western Carpatians: 2D integrated modelling

Contributions to Geophysics and Geodesy, 2015
Using 2D integrated geophysical modelling we recalculated lithospheric model along transect KP-X in the eastern part of theWestern Carpathians. Our model takes into account the joint interpretation of the heat flow, free air anomalies, topography and ...
Petra HLAVŇOVÁ, Miroslav BIELIK, Jana DÉREROVÁ, Igor KOHÚT, Mariana PAŠIAKOVÁ   +4 more
doaj   +1 more source

The effective elastic thickness of the India Plate from receiver function imaging, gravity anomalies and thermomechanical modelling [PDF]

, 2006
The range and the meaning of the effective elastic thickness (EET) in continental areas have been subject to controversy over the last two decades. Here we take advantage of the new data set from the Hi-CLIMB seismological experiment to re-estimate the ...
Cattin, R., Hetényi, György, Nabelek, J. L., Vergne, J.   +3 more
core   +1 more source

Qinghai-Tibet Plateau crustal thickness derived from EGM2008 and CRSUT2.0

Geodesy and Geodynamics, 2014
Qinghai-Tibet Plateau is the most complex region for crustal thickness inversion, while high-resolution earth gravity model (EGM) makes it possible to obtain high precision gravity anomaly, which is a key parameter to depict the Earth’s inner structure ...
Zhou Hao, Luo Zhicai, Zhong Bo
doaj   +1 more source

The crust and upper mantle structure of central and West Antarctica from Bayesian inversion of Rayleigh Wave and receiver functions [PDF]

, 2018
Author Posting. © American Geophysical Union, 2018. This article is posted here by permission of American Geophysical Union for personal use, not for redistribution.
Accardo, An, Aster, Bannister, Barklage, Barletta, Barmin, Behrendt, Behrendt, Bensen, Bialas, Blankenship, Block, Bodin, Boger, Brenn, Brink, Brink, Bromirski, Bromirski, Bruneton, Cande, Chaput, Dalton, Dalziel, Danesi, Danesi, Deng, Deschamps, Diez, Du Toit, Emry, Fahnestock, Faul, Ferraccioli, Ferraccioli, Finotello, Fischer, Fishwick, Fishwick, Fitzsimons, Fitzsimons, Forsyth, Fretwell, Gao, Gaul, Godey, Gomez, Granot, Graw, Graw, Griffin, Griffin, Grunow, Hansen, Hansen, Hansen, Hansen, Hansen, Heeszel, Heeszel, Ikami, Jordan, Jordan, Joughin, Kang, Kennett, Kennett, King, Kogan, Larter, Lawrence, Lawrence, Lawrence, Lee, LeMasurier, Levshin, Licht, Ligorría, Lin, Lindeque, Lloyd, Lloyd, Lough, Malkovets, Merdith, Morelli, Moschetti, Mosegaard, O'Donnell, O'Reilly, O'Reilly, OʼDonnell, Panter, Phillips, Pollard, Priestley, Pyle, Ramirez, Ramirez, Ritzwoller, Ritzwoller, Robinson, Rocchi, Rouland, Sabra, Salvini, Schutt, Seroussi, Shapiro, Shapiro, Shapiro, Shen, Shen, Shen, Shen, Shen, Siddoway, Sieminski, Stern, Studinger, Stump, Trabant, Veevers, Vuan, Wal, Wannamaker, Watson, Weaver, Wessel, Wörner, Yan, Yang   +132 more
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